Abstract: A method for making a battery is disclosed which comprises providing a plurality of Electrochemical Cell (EC) bundles; providing a current collecting terminal having first and second ends; electrically connecting the projections of the sheet like electrodes extending from one end a first EC bundle together via the first end of the current collecting terminal; electrically connecting the projections of the sheet like electrodes extending from one end of a second EC bundle together via the second end of the current collecting terminal such that the first and second EC bundles are mechanically and electrically connected together and form a string of at least two EC bundles; and folding the string of at least two EC bundles by bending the current collecting terminal connecting the at least two EC bundles together such that the first and second EC bundles are positioned in a side by side relationship.

Abstract: A method for making a battery is disclosed which comprises providing a plurality of Electrochemical Cell (EC) bundles; providing a current collecting terminal having first and second ends; electrically connecting the projections of the sheet like electrodes extending from one end a first EC bundle together via the first end of the current collecting terminal; electrically connecting the projections of the sheet like electrodes extending from one end of a second EC bundle together via the second end of the current collecting terminal such that the first and second EC bundles are mechanically and electrically connected together and form a string of at least two EC bundles; and folding the string of at least two EC bundles by bending the current collecting terminal connecting the at least two EC bundles together such that the first and second EC bundles are positioned in a side by side relationship.

Abstract: The invention provides a current collecting terminal for use in an electrochemical battery formed from a plurality of Electrochemical (EC) bundles. The current collecting terminal has a first end and a second end, and comprises a first conductive component and a second conductive component for electrically connecting a pair of EC bundles together. At the first end of the current collecting terminal, the first conductive component and the second conductive component each overlap a main face of respective sheet-like current collecting elements of a first EC bundle. At the second end, the first conductive component and the second conductive component each overlap a main face of respective sheet-like current collecting elements of a second EC bundle. The first conductive component and the second conductive component are both in electrical communication with the first EC bundle and the second EC bundle.

Abstract: A self-diagnosis system for an energy storage device, the latter including a plurality of electrochemical cells connected in series or parallel to form a cell string. The self-diagnosis system correlates a state of health of the battery based on the internal resistance value of each electrochemical cell of the energy storage device and determines a corresponding battery initial capacity which enables the self-diagnosis system to evaluate the exact capacity of the battery at any given time.

Abstract: A self-diagnosis system for an energy storage device, the latter including a plurality of electrochemical cells connected in series or parallel to form a cell string. The self-diagnosis system correlates a state of health of the battery based on the internal resistance value of each electrochemical cell of the energy storage device and determines a corresponding battery initial capacity which enables the self-diagnosis system to evaluate the exact capacity of the battery at any given time.

Abstract: A self-diagnosis system for an energy storage device, the latter including a plurality of electrochemical cells connected in series or parallel to form a cell string. The self-diagnosis system correlates a state of health of the battery based on the internal resistance value of each electrochemical cell of the energy storage device and determines a corresponding battery initial capacity which enables the self-diagnosis system to evaluate the exact capacity of the battery at any given time.

Abstract: A polymer electrochemical generator having a plurality of electrochemical cells, each including at least one current collecting terminals, as well as a resilient heat sink material positioned adjacent and in mechanical contact with the current collecting terminals. The resilient heat sink material is electrically resistive and thermally conductive. A thermally conductive structural housing having walls encloses the plurality of electrochemical cells and the resilient heat sink material. The walls of the structural housing are positioned adjacent the resilient heat sink material and are in thermal contact therewith, for dissipating thermal energy generated by the plurality of electrochemical cells.

Abstract: A self-diagnosis system for an energy storage device, the latter including a plurality of electrochemical cells connected in series or parallel to form a cell string. The self-diagnosis system correlates a state of health of the battery based on the internal resistance value of each electrochemical cell of the energy storage device and determines a corresponding battery initial capacity which enables the self-diagnosis system to evaluate the exact capacity of the battery at any given time.